A systematic review of medical and nursing care for patients with neurological diseases, focusing on the pre and post-operative considerations

Document Type : Systematic Review

Authors

1 Fellowship on interventional neuroradiology from Zurich, Iranian Board of Neurology, Kurdestan Board of Neurology, Kurdestan, Iran

2 MD, Arak university of medical sciences, Iran

3 MD, Yerevan state medical university, Mikhitar Heratsi, internship in Arak medical university,postgraduate course of specialization in Dermatovenerology, shupyk national Healthcare university of Ukraine

4 I.M. Sechenov First Moscow state Medical school university, Moscow, Russia

5 Visiting instructor at Stanford University, Department of pediatrics, division of Gastroenterology, Hepatology and Nutrition

6 Operating Room Nurse Student, student Research committee, Shiraz University of medical sciences, Shiraz, Iran

Abstract
Introduction: This systematic review aims to synthesize evidence regarding medical and nursing care for patients with neurological diseases undergoing surgery, with a focus on pre- and post-operative considerations. This review underscores the need for standardized protocols that integrate medical and nursing perspectives in perioperative neurological care. While substantial progress has been made, gaps remain in consistent implementation of evidence-based practices and patient-centered approaches. Future research should focus on developing integrated care models and evaluating their effectiveness in enhancing surgical outcomes for patients with neurological diseases.

Methodology: Following PRISMA-based methodology, key areas include preoperative assessment, risk optimization, perioperative medication management, anesthetic strategies, and post-operative bundles of care such as hemodynamic control, secondary brain injury prevention, venous thromboembolism (VTE) prophylaxis, infection prevention, nutrition, pain management, early rehabilitation, and patient/family education.

Findings: Findings indicate that pre-operative considerations should prioritize accurate neurological assessment, optimization of comorbidities, psychological support, and patient education to enhance compliance and reduce anxiety. Pre-operative imaging, medication management (e.g., anticonvulsants, anticoagulants), and nutritional status evaluation were also identified as critical. Intraoperative nursing care, though less frequently studied, emphasizes the importance of hemodynamic stability, intracranial pressure monitoring, and prevention of complications such as hypoxia and infection.

Conclusion: Optimal perioperative care for neurosurgical patients requires a standardized, multidisciplinary, and nursing-centered approach. Critical elements include risk assessment, medication management, neuro-focused anesthesia and monitoring, structured post-op neurological checks, complication prevention, multimodal analgesia, nutrition/dysphagia management, early rehabilitation, and robust patient/family education. Adoption of ERAS pathways and quality monitoring can significantly improve outcomes and reduce healthcare costs.

Graphical Abstract

A systematic review of medical and nursing care for patients with neurological diseases, focusing on the pre and post-operative considerations

Keywords

Subjects

Introduction

Neurological disorders requiring surgical intervention from brain tumors and vascular lesions to degenerative spinal disease carry unique systemic and neurological risks [1]. Small variations in fluid balance, hemodynamics, ventilation, drug management, and neurological monitoring profoundly influence surgical outcomes [2]. This review provides a structured overview of the essential components of perioperative medical and nursing care, with emphasis on the pivotal role of nurses in monitoring, complication prevention, patient/family education, and coordination of care [3]. Neurological diseases represent some of the most challenging conditions in modern medicine, not only due to their complexity but also because of the profound and often lifelong impact they exert on patients’ quality of life [4]. Disorders such as brain tumors, cerebrovascular accidents, traumatic brain injuries, epilepsy, neurodegenerative diseases, and spinal cord disorders frequently necessitate surgical interventions as part of comprehensive treatment. These interventions, however, are associated with significant risks and complications that extend beyond the surgical act itself. Consequently, perioperative medical and nursing care encompassing both pre-operative and post-operative phases plays a pivotal role in determining patient outcomes, recovery trajectories, and long-term prognosis. A systematic understanding of best practices in this domain is therefore critical to ensure safety, improve survival rates, and enhance the quality of life for individuals affected by neurological diseases [5].

Burden of Neurological Diseases and the Need for Surgery

The global burden of neurological diseases is considerable, accounting for a substantial proportion of disability-adjusted life years (DALYs) and mortality worldwide.

According to the World Health Organization, neurological disorders are among the leading causes of disability and death, with conditions like stroke and traumatic brain injury contributing significantly to healthcare costs and societal burden. While pharmacological and rehabilitative treatments remain essential, surgical interventions such as tumor resections, decompressive craniotomy, aneurysm clipping, spinal surgeries, and epilepsy surgery are often indispensable. Given the invasive nature of these procedures, effective perioperative care is fundamental to reducing complications, optimizing recovery, and facilitating rehabilitation [6].

Importance of Perioperative Care

Perioperative care for neurological patients is uniquely complex, as it must address not only standard surgical considerations such as anesthesia, infection control, and hemodynamic stability, but also disease-specific factors including intracranial pressure management, seizure prevention, neurocognitive function preservation, and rehabilitation planning. Pre-operative preparation is essential to reduce patient anxiety, assess risks, and optimize comorbid conditions such as hypertension, diabetes, or anticoagulation therapy. Similarly, post-operative management is critical to detect and prevent complications like cerebral edema, hemorrhage, seizures, and infections, while also promoting functional recovery through early mobilization and rehabilitation strategies.

Nursing care is particularly vital in this continuum. Nurses are often the first to recognize subtle neurological changes, ensure adherence to protocols, and provide emotional support to patients and families. Their role in patient education, psychological reassurance, and discharge planning is also crucial for long-term recovery.

The integration of medical and nursing perspectives therefore creates a holistic approach that addresses the biological, psychological, and social dimensions of neurological care [7].

Pre-operative Considerations

Pre-operative care begins with a comprehensive neurological assessment, including imaging studies, cognitive evaluation, and functional assessments, to establish a baseline for comparison after surgery. Optimization of comorbid conditions is vital: hypertension and diabetes must be controlled, anticoagulant or antiplatelet therapy adjusted, and nutritional deficiencies corrected. Furthermore, psychological preparation including counseling and education about the surgical procedure has been shown to reduce anxiety and improve compliance with post-operative care instructions. In certain neurological conditions, such as epilepsy, the adjustment of anticonvulsant medication is crucial to prevent perioperative seizures. Patient-centered communication, involving both patients and their families, is an integral part of this process, fostering trust and improving adherence to medical advice [8].

Intraoperative Challenges and Nursing Role Although the intraoperative period is primarily the domain of surgeons and anesthesiologists, perioperative nurses play an indispensable role in ensuring safety and continuity of care. Their responsibilities include monitoring vital signs, preparing necessary equipment, maintaining aseptic conditions, and anticipating the needs of the surgical team. Importantly, intraoperative nursing vigilance helps in the prevention of complications such as hypoxia, hypotension, and surgical site infection. Moreover, neurosurgical procedures often involve advanced technologies such as intraoperative imaging, neuronavigation, and electrophysiological monitoring, requiring specialized training and competence among the nursing team [9].

Post-operative Considerations

The post-operative phase is often the most critical in determining neurological and functional outcomes. Immediate post-operative care typically involves close monitoring in the intensive care unit or specialized neurosurgical wards, where early recognition of complications such as hemorrhage, cerebral edema, hydrocephalus, or infections is paramount. Neurological assessments often conducted hourly in the first 24 hours are crucial for identifying deterioration. Pain management, wound care, and prevention of complications such as deep vein thrombosis, pulmonary embolism, or pressure ulcers are also essential components of post-operative care [10].

Nursing care during this phase extends beyond physiological monitoring. Emotional support for patients and families is critical, especially in cases where the surgery may result in neurological deficits such as speech impairment, hemiparesis, or cognitive decline. Rehabilitation planning including physiotherapy, occupational therapy, and speech therapy should begin as early as possible to maximize functional recovery. The nurse often acts as a coordinator between different specialties, ensuring that patients receive comprehensive and timely interventions [11].

Multidisciplinary Collaboration

One of the most significant themes emerging in modern perioperative neurological care is the emphasis on multidisciplinary collaboration. Neurosurgeons, anesthesiologists, intensivists, neurologists, physiotherapists, psychologists, and specialized nurses must work in close coordination to address the multifaceted needs of patients. This collaborative approach has been shown to reduce complication rates, shorten hospital stays, and improve overall patient satisfaction. Nursing professionals, in particular, often bridge the communication between patients, families, and the medical team, facilitating holistic care that addresses both clinical and psychosocial dimensions [12].

 Gaps in Current Practice

Despite advances in neurosurgical techniques and perioperative protocols, significant gaps remain in the standardization of care practices. Variation in nursing protocols, inconsistent application of evidence-based guidelines, and limited resources in low- and middle-income countries hinder optimal patient outcomes. Moreover, psychological and social support though increasingly recognized as critical remains underemphasized in many clinical settings. There is also a need for more robust training programs for nursing staff, especially in resource-limited environments, where specialized neurosurgical nursing expertise may be scarce. Given the complexity of neurological diseases and the critical role of perioperative care, a systematic review is necessary to synthesize current evidence and provide guidance for both clinicians and nurses. While numerous studies have addressed specific aspects of pre- and post-operative management, there remains a lack of comprehensive analysis that integrates medical and nursing perspectives across a wide range of neurological conditions. This review therefore seeks to bridge this gap by critically evaluating the literature, identifying best practices, and highlighting areas for future research [13].

The primary objective of this systematic review is to evaluate and synthesize evidence on medical and nursing care strategies for patients with neurological diseases during the pre- and post-operative periods. Specifically, the review aims to:

  • Identify key pre-operative interventions that optimize surgical outcomes and reduce complications.
  • Examine post-operative care practices that promote recovery, prevent adverse events, and improve quality of life [14].
  • Assess the role of multidisciplinary collaboration, with particular emphasis on the contributions of nursing care.
  • Highlight gaps in current practice and propose recommendations for future research and clinical protocols.

Neurological diseases present unique challenges that extend beyond surgical interventions, requiring careful attention to perioperative care. Medical and nursing teams play complementary roles in preparing patients for surgery, safeguarding intraoperative stability, and promoting post-operative recovery [15]. This systematic review provides an evidence-based exploration of these practices, offering insights into strategies that can improve patient safety, recovery outcomes, and overall quality of life. By integrating medical and nursing perspectives, this review contributes to the development of comprehensive and patient-centered approaches in the care of individuals undergoing neurosurgical interventions [16].

Methodology (PRISMA Framework)

  • Research Question (PICO):
    • Population: Adults and children undergoing neurosurgical procedures.
    • Interventions: Medical and nursing perioperative care, ERAS pathways, preventive strategies.
    • Comparison: Standard or alternative protocols [17].
    • Outcomes: Mortality, complications (infection, VTE, seizure, hemorrhage, CSF leak, dysphagia/aspiration, delirium), length of stay, functional recovery.
  • Sources: PubMed/MEDLINE, Embase, Cochrane Library, CINAHL, society guidelines.
  • Inclusion Criteria: Reviews, guidelines, RCTs, and observational studies focused on perioperative neurosurgical care.
  • Exclusion Criteria: Low-quality studies, unrelated conditions, case reports (except rare diseases).
  • Quality Assessment: AMSTAR (reviews), Cochrane risk-of-bias (RCTs), NOS (observational studies).

In figure (1), PRISMA 2020 flow diagram for new systematic reviews which included searches of databases and registers only was illustrated.

Table 1: PRISMA 2020 flow diagram for new systematic reviews which included searches of databases and registers only

Pre-operative Considerations

Comprehensive Assessment and Risk Stratification:

  • Neurological exam: Glasgow Coma Scale (GCS), focal deficits, speech/swallow function, signs of intracranial hypertension.
  • Risk scores: ASA, Revised Cardiac Risk Index (RCRI); NIHSS for stroke, Hunt–Hess/WFNS for subarachnoid hemorrhage (SAH).
  • Labs: CBC, electrolytes (with focus on sodium), glucose, renal/liver function, coagulation profile.
  • Optimization of comorbidities: Hypertension, diabetes, COPD, heart failure, chronic kidney disease.

In table (1), comprehensive assessment and risk stratification in neurological surgical patients (Hypothetical Data) was illustrated.

Table 1. Comprehensive Assessment and Risk Stratification in Neurological Surgical Patients (Hypothetical Data)

Patient ID

Age / Gender

Neurological Condition

Pre-operative Risk Factors

Risk Stratification (Low / Moderate / High)

Planned Interventions

Expected Outcome

P001

45 / Male

Brain Tumor (Glioma)

Hypertension, Mild Cognitive Impairment

Moderate

Optimize BP, Cognitive Assessment, Pre-op MRI

Favorable recovery, mild rehab

P002

63 / Female

Aneurysmal Subarachnoid Hemorrhage

Diabetes, Obesity, Anxiety

High

Glycemic Control, Psychological Support, ICU Preparedness

Risk of complications, prolonged ICU stay

P003

28 / Male

Epilepsy (Resistant)

Long-term AEDs, Malnutrition

Moderate

Nutritional Support, AED adjustment

Seizure reduction, good prognosis

P004

70 / Male

Ischemic Stroke requiring Decompression

Hypertension, Smoking, Atrial Fibrillation

High

Anticoagulant Management, Cardiac Monitoring

Moderate prognosis, functional limitations

P005

54 / Female

Spinal Cord Tumor

Chronic Pain, Depression

Moderate

Pain Management, Psychological Counseling

Improved quality of life with rehab

P006

39 / Male

Traumatic Brain Injury

Alcohol Use, Sleep Disorder

High

Detox Protocol, Sleep Hygiene, ICP Monitoring

Risk of relapse, guarded prognosis

P007

62 / Female

Parkinson’s Disease (DBS candidate)

Dysphagia, Cardiovascular disease

Moderate

Swallowing Assessment, Cardiac Clearance

Improved motor control, reduced falls

P008

48 / Male

Acoustic Neuroma

Hearing Loss, Anxiety

Low

Counseling, ENT Support

Excellent prognosis, minimal rehab

P009

77 / Female

Alzheimer’s Disease with Hydrocephalus

Severe Cognitive Decline, Frailty

High

Family Counseling, Palliative Considerations

Limited recovery, supportive care focus

P010

34 / Male

Multiple Sclerosis (Spinal Surgery)

Fatigue, Immunosuppression

Moderate

Infection Control, Pre-op Steroid Plan

Good prognosis with relapse risk

P011

59 / Female

Cervical Disc Herniation

Hypertension, Obesity

Moderate

Weight Optimization, BP Control

Good recovery with physiotherapy

P012

68 / Male

Intracerebral Hemorrhage

Hypertension, CKD Stage 3

High

Nephrology Consult, BP Optimization, ICU Monitoring

Risk of complications, close follow-up needed

Medication Management

Antiplatelet/anticoagulants: Timing of discontinuation/bridging based on bleeding risk.

  • Antiepileptic’s (AEDs): Continuation to prevent perioperative seizures.
  • Corticosteroids (e.g., dexamethasone for tumors): Used to reduce edema; monitor for hyperglycemia.
  • Glucose control: Moderate targets (140–180 mg/dL).
  • Antibiotic prophylaxis: Administered per surgical guidelines [18].

In table (2), medication management in neurological surgical patients (Hypothetical Data) was illustrated.

Table 2. Medication Management in Neurological Surgical Patients (Hypothetical Data)

Patient ID

Neurological Condition

Current Medications

Perioperative Adjustments

Rationale for Adjustment

Post-operative Plan

P001

Brain Tumor (Glioma)

Dexamethasone, Phenytoin

Continue dexamethasone, adjust phenytoin dose

Reduce cerebral edema, maintain seizure control

Gradual steroid taper, monitor drug levels

P002

Aneurysmal SAH

Nimodipine, Insulin

Continue nimodipine, tight glucose control

Prevent vasospasm, reduce infection risk

Maintain nimodipine, monitor electrolytes

P003

Epilepsy (Resistant)

Levetiracetam, Valproate

Continue both, check serum levels

Prevent peri-op seizures

Long-term AED monitoring

P004

Ischemic Stroke

Warfarin, Aspirin

Stop warfarin 5 days before, continue aspirin

Reduce bleeding risk while preserving anti-platelet effect

Resume anticoagulation post-op (with neurosurgeon approval)

P005

Spinal Cord Tumor

Gabapentin, Sertraline

Continue gabapentin, hold sertraline day of surgery

Pain control needed, avoid serotonin syndrome risk

Resume antidepressant once stable

P006

TBI

Diazepam, Thiamine

Taper diazepam, continue thiamine

Prevent withdrawal, support brain metabolism

Monitor sedation, adjust benzodiazepines

P007

Parkinson’s Disease (DBS)

Levodopa, Amantadine

Continue levodopa until surgery, stop amantadine 24h before

Avoid rigidity, reduce peri-op interactions

Restart dopaminergic therapy ASAP

P008

Acoustic Neuroma

Betahistine

Continue as usual

Minimal interaction with anesthesia

Continue for vestibular symptom control

P009

Alzheimer’s Disease

Donepezil, Memantine

Stop donepezil 24h before, continue memantine

Avoid bradycardia risk under anesthesia

Resume donepezil with caution

P010

Multiple Sclerosis

Interferon-beta, Prednisone

Continue interferon, taper prednisone if high dose

Reduce infection risk, avoid adrenal crisis

Immunotherapy continuation, infection monitoring

P011

Cervical Disc Herniation

NSAIDs, Lisinopril

Stop NSAIDs 3 days before, continue lisinopril

Prevent bleeding, maintain BP control

Resume NSAIDs post-op if no contraindication

P012

Intracerebral Hemorrhage

Amlodipine, Atorvastatin

Continue both

Maintain BP, reduce vascular risk

Long-term antihypertensive and statin therapy

Anesthetic and Intraoperative Strategies

  • Airway/ventilation: Secure airway, normocapnia; avoid extremes of CO₂.
  • Hemodynamics/fluids: Maintain cerebral perfusion pressure (CPP); isotonic crystalloids; avoid hyponatremia [19].
  • Positioning: Minimize nerve/pressure injury; monitor for air embolism risk in sitting/craniotomy positions.

In table (3), anesthetic and intraoperative strategies in neurological surgeries (Hypothetical Data) was illustrated.

Table 3. Anesthetic and Intraoperative Strategies in Neurological Surgeries (Hypothetical Data)

Patient ID

Neurological Condition

Type of Surgery

Anesthetic Technique

Intraoperative Monitoring

Special Strategies

Post-op Considerations

A001

Brain Tumor (Meningioma)

Craniotomy

Total Intravenous Anesthesia (TIVA) with Propofol

ICP monitoring, BIS

Hyperventilation to reduce ICP

Smooth emergence to avoid coughing/ICP spikes

A002

Aneurysmal SAH

Clipping of Aneurysm

Balanced anesthesia (Sevoflurane + Remifentanil)

Arterial line, TCD, EEG

Controlled hypotension during clipping

Close BP control to prevent rebleeding

A003

Epilepsy

Temporal Lobectomy

Awake Craniotomy

EEG, Cortical Mapping

Minimal sedation for patient cooperation

Seizure prophylaxis, monitor neurological status

A004

Parkinson’s Disease

Deep Brain Stimulation (DBS)

Monitored Anesthesia Care (MAC)

Microelectrode Recording

Avoid muscle relaxants for intra-op testing

Rapid resumption of levodopa therapy

A005

Spinal Cord Tumor

Laminectomy

General Anesthesia (Isoflurane + Fentanyl)

SSEP, MEP

Maintain stable hemodynamics to protect cord

Neurological exam post-extubation

A006

Ischemic Stroke

DE compressive Craniotomy

TIVA (Propofol + Dexmedetomidine)

ICP, Arterial BP, EtCO₂

Osmotic diuretics to reduce cerebral edema

ICU admission for ICP monitoring

A007

Chiari Malformation

Posterior Fossa Decompression

Inhalational (Sevoflurane + Opioid)

CVP, Temperature, ICP

Head positioning for venous drainage

Watch for post-op respiratory compromise

A008

Acoustic Neuroma

Microsurgery

Balanced anesthesia

CN VII monitoring, Brainstem Auditory Evoked Potentials (BAEP)

Minimal use of muscle relaxants

Facial nerve function monitoring

A009

Multiple Sclerosis

Spinal Fusion

TIVA with Propofol

SSEP, MEP

Avoid hyperthermia, maintain normothermia

Prevent post-op infections

A010

Intracerebral Hemorrhage

Hematoma Evacuation

Rapid-sequence Induction + Balanced anesthesia

ICP, Invasive BP, Coagulation

Rapid control of hypertension

Intensive neuro ICU follow-up

A011

Traumatic Brain Injury

Craniotomy

TIVA (Etomidate + Opioid)

ICP, Jugular Venous O₂ Sat

Maintain cerebral perfusion pressure (CPP)

Aggressive ICP management post-op

A012

Cervical Spine Injury

Decompression + Fixation

General Anesthesia (Propofol + Opioid)

SSEP, MEP, Fiberoptic Intubation

Maintain cervical stability, controlled hypotension

Airway protection post-op due to edema

Patient/Family Education

  • Clear communication of risks, pain plan, nutrition/swallowing expectations, rehabilitation trajectory.
  • Cultural sensitivity and psychosocial support for elderly or cognitively impaired patients [19].

In table (4), patient/family education strategies in neurological surgery (Hypothetical Data) was illustrated.

 

 

 

Table 4. Patient/Family Education Strategies in Neurological Surgery (Hypothetical Data)

Patient ID

Neurological Condition

Education Topics Covered

Method of Delivery

Family Involvement

Understanding Level (1–5)

Follow-up Plan

P001

Brain Tumor (Glioma)

Surgical procedure, recovery timeline, medication adherence

Face-to-face counseling + written booklet

Spouse and adult child

5 (Excellent)

Weekly nurse calls for 1 month

P002

Epilepsy (Surgery Candidate)

Seizure precautions, medication management, lifestyle modifications

Multimedia video + group education

Parents

4 (Good)

Monthly outpatient visits

P003

Parkinson’s Disease (DBS)

Device management, wound care, medication resumption

Bedside teaching with device demo

Spouse

3 (Moderate)

Device check every 3 months

P004

Spinal Cord Tumor

Post-op mobility restrictions, physiotherapy, bowel/bladder care

Individual teaching + physiotherapist session

Family caregiver

4 (Good)

Rehab clinic follow-up

P005

Stroke (Post-craniotomy)

Blood pressure control, diet, rehab exercises

Illustrated booklet + nurse-led class

Daughter

5 (Excellent)

Community stroke clinic referral

P006

Traumatic Brain Injury

ICP warning signs, medication use, home safety

Counseling + smartphone reminders

Spouse & parents

3 (Moderate)

Home visits by nurse for 2 weeks

P007

Multiple Sclerosis (Spinal Surgery)

Fatigue management, infection signs, adherence to immunotherapy

Nurse counseling + online resources

Family caregiver

4 (Good)

Telehealth follow-up monthly

P008

Acoustic Neuroma

Hearing loss adaptation, facial nerve care, balance training

Audiology consult + leaflets

Spouse

5 (Excellent)

Audiology/ENT check-up in 6 weeks

P009

Chiari Malformation

Headache triggers, positioning, wound monitoring

Bedside teaching + written instructions

Mother

3 (Moderate)

Phone consultation weekly

P010

Aneurysm (Post-Clipping)

BP control, smoking cessation, stroke prevention

Interactive class + booklet

Spouse & children

4 (Good)

Neuro clinic check in 1 month

P011

Epilepsy (Child)

Seizure first aid, school safety, medication reminders

Family workshop + visual aids

Parents + teacher

5 (Excellent)

School–hospital liaison follow-up

P012

Cervical Spine Injury

Neck brace use, mobility precautions, home safety

Bedside demo + video

Sibling caregiver

4 (Good)

Outpatient PT sessions biweekly

Post-operative Considerations

Neurological and Systemic Monitoring:

  • Frequent neuro checks: GCS, pupils, motor/sensory, speech.
  • Head elevation at 30°, neutral neck positioning.
  • ICP monitoring (external ventricular drain [EVD]) where indicated [20].
  • Hemodynamic targets: Tailored to pathology (e.g., strict BP control after aneurysm clipping/coiling).
  • Ventilation: Avoid hypoxia; assess extubation readiness early.

In table (5), neurological and systemic monitoring in post-operative neurological patients (Hypothetical Data) was illustrated.

 

 

Table 5. Neurological and Systemic Monitoring in Post-Operative Neurological Patients (Hypothetical Data)

Patient ID

Neurological Condition

Post-Op Day

Neurological Parameters Monitored

Systemic Parameters Monitored

Monitoring Frequency

Abnormal Findings / Interventions

P001

Brain Tumor (Glioma)

Day 1

GCS, pupillary response, limb strength

BP, HR, SpO₂, Temp

Hourly

Mild headache; analgesics administered

P002

Aneurysmal SAH

Day 2

GCS, motor strength, speech

BP, HR, CVP

Every 2 hours

Elevated BP; antihypertensives adjusted

P003

Epilepsy Surgery

Day 1

Seizure activity, EEG

HR, SpO₂

Continuous EEG + hourly vitals

Post-op seizure; IV AED given

P004

Spinal Cord Tumor

Day 3

Motor strength, sensation, reflexes

BP, Temp, SpO₂

Every 4 hours

Sensory deficit noted; PT evaluation initiated

P005

Stroke (Post-Craniectomy)

Day 1

GCS, limb movement, pupil size

ICP, BP, HR, SpO₂

Hourly

ICP rising; osmotic therapy started

P006

Traumatic Brain Injury

Day 2

GCS, limb strength, cranial nerve function

BP, HR, Temp

Hourly

Fever detected; cultures and antibiotics initiated

P007

Parkinson’s Disease (DBS)

Day 1

Tremor, rigidity, speech

BP, HR, SpO₂

Every 2 hours

Rigidity controlled; medication adjusted

P008

Acoustic Neuroma

Day 1

Facial nerve function, hearing, balance

BP, Temp, SpO₂

Every 2 hours

Mild facial weakness; physiotherapy started

P009

Chiari Malformation

Day 3

Motor function, coordination

BP, HR, Temp

Every 4 hours

Headache increased; analgesics adjusted

P010

Intracerebral Hemorrhage

Day 1

GCS, pupillary response, limb strength

ICP, BP, HR, Temp

Continuous

ICP spikes; surgical review requested

P011

Epilepsy (Child)

Day 2

Seizure frequency, EEG

HR, SpO₂, Temp

Continuous EEG + hourly vitals

Post-op seizure; AED dose adjusted

P012

Cervical Spine Injury

Day 1

Motor function, sensation, reflexes

BP, HR, SpO₂, Temp

Every 2 hours

BP drop; fluids administered

 

Prevention of Major Complications

  • Seizures: Continue AEDs; EEG in high-risk patients.
  • VTE: Sequential compression devices, stockings, early ambulation; pharmacologic prophylaxis when safe.
  • Surgical site infection/meningitis: Strict asepsis with drains/catheters; wound care.
  • Electrolyte imbalance: Careful monitoring of sodium differentiate SIADH vs. cerebral salt wasting.
  • Hyperglycemia: Tight but safe glycemic control [21].
  • Skin integrity: Prevent pressure ulcers with repositioning and protective surfaces.

In table (6), prevention of major post-operative complications in neurological surgery (Hypothetical Data) as illustrated.

Table 6. Prevention of Major Post-Operative Complications in Neurological Surgery (Hypothetical Data)

Patient ID

Neurological Condition

Potential Major Complications

Preventive Strategies Implemented

Responsible Team Members

Outcome / Notes

P001

Brain Tumor (Glioma)

Infection, Cerebral Edema

Sterile technique, prophylactic antibiotics, corticosteroids

Nurse, Neurosurgeon

No infection; mild edema controlled

P002

Aneurysmal SAH

Rebreeding, Vasospasm

BP control, nimodipine, close neuro monitoring

Nurse, Neurosurgeon, ICU team

No rebreeding; vasospasm prevented

P003

Epilepsy Surgery

Seizures, Wound Infection

AED optimization, wound care protocols

Nurse, Neurologist

Seizure-free; wound healed well

P004

Spinal Cord Tumor

Paralysis, DVT

Early mobilization, compression stockings, anticoagulation

Nurse, PT, Neurosurgeon

No paralysis; DVT prevented

P005

Stroke (Post-Craniotomy)

Increased ICP, Pneumonia

ICP monitoring, chest physiotherapy, positioning

ICU Nurse, Respiratory Therapist

ICP stable; pneumonia prevented

P006

Traumatic Brain Injury

Hemorrhage, Infection

ICP management, prophylactic antibiotics

Nurse, Neurosurgeon

Hemorrhage controlled; infection-free

P007

Parkinson’s Disease (DBS)

Device Infection, Hematoma

Aseptic implantation, post-op monitoring

Nurse, Neurosurgeon

No infection; hematoma prevented

P008

Acoustic Neuroma

Facial Nerve Damage, CSF Leak

Intraoperative nerve monitoring, tight dural closure

Nurse, ENT, Neurosurgeon

Facial function preserved; no CSF leak

P009

Chiari Malformation

Respiratory Compromise, Wound Infection

Respiratory monitoring, proper wound care

Nurse, PT, ICU team

Stable respiration; wound intact

P010

Intracerebral Hemorrhage

Rebreeding, Hydrocephalus

BP management, ventricular drain monitoring

Nurse, Neurosurgeon

No rebreeding; hydrocephalus managed

P011

Epilepsy (Child)

Seizures, Medication Side Effects

AED monitoring, parent education

Nurse, Neurologist

Seizures prevented; no adverse drug events

P012

Cervical Spine Injury

Paralysis, Pressure Ulcers

Frequent repositioning, spine stabilization, early PT

Nurse, PT, Neurosurgeon

No new deficits; skin integrity maintained

Pain and Sedation Management

  • Multimodal analgesia: Acetaminophen, gabapentinoids, low-dose opioids.
  • Avoid over sedation to permit accurate neuro exams [22].

In table (7), pain and sedation management in neurological surgery (Hypothetical Data) was illustrated.

 

 

 

Table 7. Pain and Sedation Management in Neurological Surgery (Hypothetical Data)

Patient ID

Neurological Condition

Post-Op Day

Pain Score (0–10)

Analgesics / Sedatives Used

Route of Administration

Monitoring & Adjustments

Outcome / Notes

P001

Brain Tumor (Glioma)

Day 1

6

Morphine PCA, Acetaminophen

IV / Oral

Pain assessed every 2 hours; PCA adjusted

Pain reduced to 3 by evening

P002

Aneurysmal SAH

Day 2

5

Fentanyl infusion, NSAIDs

IV / Oral

BP and sedation monitored hourly

Pain controlled; alert and oriented

P003

Epilepsy Surgery

Day 1

4

Acetaminophen, Low-dose Midazolam

Oral / IV PRN

Neurological checks every 30 min; sedation minimal

Pain tolerable; no sedation-related issues

P004

Spinal Cord Tumor

Day 3

7

Morphine, Gabapentin

IV / Oral

Pain reassessed 3x/day; gabapentin titrated

Pain decreased to 4; improved mobility

P005

Stroke (Post-Craniotomy)

Day 1

6

Acetaminophen, Propofol infusion (ICU)

IV

ICP monitored; sedation minimized for neuro assessment

Pain controlled; patient awake for neuro checks

P006

Traumatic Brain Injury

Day 2

5

Fentanyl, Midazolam

IV

Sedation levels assessed via RASS; adjusted PRN

Pain and agitation managed

P007

Parkinson’s Disease (DBS)

Day 1

3

Acetaminophen, Low-dose Lorazepam

Oral / IV

Tremor and sedation monitored; careful dosing

Pain mild; tremor controlled

P008

Acoustic Neuroma

Day 1

4

Acetaminophen, Opioid PRN

Oral / IV

Pain assessed every 2–3 hours

Pain tolerable; no adverse effects

P009

Chiari Malformation

Day 3

5

NSAIDs, Low-dose Morphine

Oral / IV

Neurological status monitored; GI side effects checked

Pain controlled; early mobilization possible

P010

Intracerebral Hemorrhage

Day 1

7

Morphine PCA, Acetaminophen

IV / Oral

Sedation and ICP closely monitored

Pain reduced to 4; no ICP spike

P011

Epilepsy (Child)

Day 2

6

Acetaminophen, Low-dose Fentanyl

Oral / IV

Pain assessed hourly; sedation minimal

Pain controlled; alert and interactive

P012

Cervical Spine Injury

Day 1

8

Morphine PCA, Gabapentin, Acetaminophen

IV / Oral

Pain reassessed q2h; dose adjusted

Pain reduced to 5; patient able to participate in PT

Nutrition, Swallowing, and Aspiration Prevention

  • Early dysphagia screening before oral intake.
  • Initiate enteral feeding within 24–48h in ICU patients.
  • Oral hygiene to reduce ventilator-associated pneumonia [23].

In table (8), nutrition, swallowing, and aspiration prevention in post-operative neurological patients (Hypothetical Data) was illustrated.

Table 8. Nutrition, Swallowing, and Aspiration Prevention in Post-Operative Neurological Patients (Hypothetical Data)

Patient ID

Neurological Condition

Post-Op Day

Swallowing Assessment

Nutrition Plan

Aspiration Prevention Measures

Monitoring & Notes

P001

Brain Tumor (Glioma)

Day 2

Mild dysphagia

Soft diet + supplements

Sit upright, small bites, supervise meals

No aspiration events

P002

Stroke (Post-Craniotomy)

Day 1

Moderate dysphagia

NG tube feeding

Elevate head of bed 30–45°, swallowing exercises

No coughing, safe NG feeds

P003

Epilepsy Surgery

Day 1

Normal swallowing

Regular diet

Standard precautions

No aspiration

P004

Spinal Cord Tumor

Day 3

Mild dysphagia

Pureed diet, hydration

Suction available, upright positioning

Occasional coughing, cleared secretions

P005

Traumatic Brain Injury

Day 2

Severe dysphagia

PEG tube feeding

Head elevation 45°, oral care, monitoring

No aspiration events

P006

Parkinson’s Disease (DBS)

Day 1

Mild dysphagia

Soft diet, thickened liquids

Supervised meals, slow feeding

Tolerated diet well

P007

Chiari Malformation

Day 3

Normal swallowing

Regular diet

Standard precautions

No aspiration

P008

Acoustic Neuroma

Day 1

Mild facial weakness affecting swallow

Soft diet, small portions

Head tilt technique, supervised feeding

No aspiration

P009

Intracerebral Hemorrhage

Day 1

Moderate dysphagia

NG tube feeding

Elevate HOB, check residuals, oral hygiene

NG tolerated, no complications

P010

Cervical Spine Injury

Day 2

Mild dysphagia

Soft diet + high-protein supplements

Swallowing therapy, upright position

Improvement noted by Day 5

P011

Epilepsy (Child)

Day 2

Normal swallowing

Age-appropriate diet

Standard feeding precautions

No events

P012

Brain Tumor (Meningioma)

Day 3

Mild dysphagia

Soft diet, supplements

Supervised feeding, frequent oral suction

Safe intake

 

Rehabilitation and Discharge Planning

  • Early mobilization: Sitting, standing, walking as tolerated.
  • PT/OT/ST for functional/cognitive recovery.
  • Family education: Wound care, seizure precautions, and red-flag symptoms [24].

In table (9), rehabilitation and discharge planning in neurological surgery (Hypothetical Data) as illustrated.

Table 9. Rehabilitation and Discharge Planning in Neurological Surgery (Hypothetical Data)

Patient ID

Neurological Condition

Post-Op Day of Rehab Start

Rehabilitation Interventions

Discharge Readiness Criteria

Family/Caregiver Involvement

Follow-Up Plan

P001

Brain Tumor (Glioma)

Day 3

Physiotherapy, occupational therapy

Stable vitals, independent ambulation

Spouse trained in mobility support

Outpatient PT 2x/week, neurology clinic 1 month

P002

Stroke (Post-Craniotomy)

Day 2

Passive/active ROM, speech therapy

Ability to perform basic ADLs, safe swallow

Daughter trained in feeding techniques

Rehab clinic weekly, neuro follow-up 2 weeks

P003

Epilepsy Surgery

Day 4

Fine motor skill exercises

Stable neurological status, seizure control

Parents briefed on AED schedule

Neurology clinic 1 month, home exercise plan

P004

Spinal Cord Tumor

Day 5

Strengthening exercises, PT, bladder training

Safe transfers, controlled pain

Caregiver trained in transfer techniques

Outpatient PT 3x/week, neuro follow-up 2 weeks

P005

Traumatic Brain Injury

Day 3

Cognitive rehab, physiotherapy

Alert, oriented, able to follow commands

Family educated on safety and stimulation activities

Multidisciplinary rehab center, 2x/week

P006

Parkinson’s Disease (DBS)

Day 2

Gait training, occupational therapy

Stable motor control, safe ambulation

Spouse trained in device monitoring

Neuro follow-up 1 month, PT weekly

P007

Chiari Malformation

Day 4

Coordination exercises, posture training

Minimal pain, able to perform ADLs

Mother trained in exercises

Outpatient PT 2x/week

P008

Acoustic Neuroma

Day 3

Balance therapy, facial exercises

Safe ambulation, facial nerve function preserved

Spouse trained in facial care

Audiology/ENT follow-up 6 weeks, home exercises

P009

Intracerebral Hemorrhage

Day 2

Mobility training, cognitive therapy

Stable vitals, able to participate in therapy

Daughter trained in monitoring neurological signs

Rehab clinic weekly, neuro follow-up 2 weeks

P010

Cervical Spine Injury

Day 5

Strengthening, mobility, spinal precautions

Independent transfers, brace compliance

Sibling trained in brace and safety measures

Outpatient PT 3x/week, neuro follow-up 1 month

P011

Epilepsy (Child)

Day 3

Fine motor skills, play-based exercises

Stable seizure control, basic ADL participation

Parents trained in AEDs, safety measures

Home exercises daily, neurology clinic 1 month

P012

Brain Tumor (Meningioma)

Day 4

Physiotherapy, occupational therapy

Pain controlled, safe mobility

Family trained in home exercises

Outpatient rehab 2x/week, neuro follow-up 1 month

Disease-Specific Care

  • Brain Tumors: Steroids pre-op; seizure monitoring post-op; radiation/chemo planning.
  • SAH/AVM: Vasospasm prevention (nimodipine, TCD monitoring); maintain euvolemia.
  • Trauma/TBI: Maintain CPP; osmotic therapy (mannitol, hypertonic saline); seizure prophylaxis.
  • Spinal Surgery: ERAS protocols; early ambulation; wound/drain care [25].
  • Epilepsy Surgery/DBS: Medication adjustment; neuropsychiatric support.
  • Elderly: Delirium prevention; cautious fluid/medication use.
  • Pediatrics: Careful fluid/pain control; parental engagement [26].

In table (10), disease-specific care in neurological surgery (Hypothetical Data) as illustrated.

Table 10. Disease-Specific Care in Neurological Surgery (Hypothetical Data)

Patient ID

Neurological Condition

Disease-Specific Needs / Considerations

Tailored Interventions

Monitoring Parameters

Expected Outcome

P001

Brain Tumor (Glioma)

Cerebral edema, seizure risk

Corticosteroids, AED prophylaxis

ICP, seizure frequency

Reduced edema, seizure prevention

P002

Aneurysmal SAH

Vasospasm, BP control

Nimodipine, strict BP management

BP, TCD, neurological exam

Prevent vasospasm, stable BP

P003

Epilepsy Surgery

Post-op seizure management

AED adjustment, seizure precautions

EEG, seizure logs

Seizure-free recovery

P004

Spinal Cord Tumor

Motor/sensory deficits

PT/OT, bladder training

Motor strength, sensory mapping

Improved mobility, bladder function

P005

Stroke (Post-Craniotomy)

Hemiparesis, dysphagia

Swallow therapy, limb strengthening

GCS, swallow test, limb ROM

Functional recovery, safe swallowing

P006

Traumatic Brain Injury

ICP spikes, agitation

Sedation, ICP management, safety measures

ICP, RASS, neuro status

Controlled ICP, stable patient

P007

Parkinson’s Disease (DBS)

Motor fluctuations, medication timing

Timed levodopa, PT

Tremor, rigidity, motor score

Optimal motor control

P008

Acoustic Neuroma

Facial nerve, hearing preservation

Intra-op nerve monitoring, audiology follow-up

CN VII function, hearing tests

Preserved nerve function, minimal hearing loss

P009

Chiari Malformation

Headache, ataxia

Posture management, coordination exercises

Coordination tests, pain scores

Symptom reduction, improved balance

P010

Intracerebral Hemorrhage

Rebreeding, hydrocephalus

BP control, ventricular drainage

ICP, BP, neuro exam

Prevent rebleeding, manage hydrocephalus

P011

Epilepsy (Child)

School reintegration, seizure safety

Parent/teacher education, AED management

Seizure logs, school reports

Safe return to school, seizure control

P012

Cervical Spine Injury

Spinal stability, respiratory function

Immobilization, respiratory therapy

Motor exam, SpO₂, lung function

Prevent further injury, maintain breathing

Nursing Roles in Neurosurgical Care

  • Structured neurological assessments.
  • Execution of complication prevention bundles (VTE, SSI, pressure injuries, falls).
  • Device management (EVD, shunts, drains) with aseptic technique.
  • Pain/sedation titration with neuro exam compatibility.
  • Dysphagia screening and nutrition safety [27].
  • Coordination of rehabilitation and discharge planning.
  • Emotional and psychological support for patients/families [28].

In table (11), nursing roles in neurosurgical care (Hypothetical Data) was illustrated.

Table 11. Nursing Roles in Neurosurgical Care (Hypothetical Data)

Patient ID

Neurological Condition

Primary Nursing Roles / Responsibilities

Specific Interventions

Monitoring Parameters

Outcome / Notes

P001

Brain Tumor (Glioma)

Pre-op education, post-op monitoring

ICP checks, medication administration, patient education

GCS, vital signs, seizure activity

Stable post-op, patient educated

P002

Aneurysmal SAH

Neurological monitoring, vasospasm prevention

BP management, nimodipine administration, neurological exams

BP, TCD, neuro status

Vasospasm prevented, vitals stable

P003

Epilepsy Surgery

Seizure management, medication adherence

AED administration, seizure precautions, patient/family education

EEG, seizure frequency

No post-op seizures

P004

Spinal Cord Tumor

Mobility support, bladder/bowel care

PT coordination, catheter care, pressure sore prevention

Motor strength, skin integrity

Improved mobility, skin intact

P005

Stroke (Post-Craniotomy)

Swallowing assessment, rehab facilitation

Swallow tests, feeding supervision, ROM exercises

GCS, limb function, swallowing safety

Safe swallowing, rehab progressing

P006

Traumatic Brain Injury

ICP management, sedation monitoring

ICP checks, sedation titration, agitation control

ICP, RASS, vitals

ICP controlled, patient calm

P007

Parkinson’s Disease (DBS)

Motor monitoring, medication timing

Timed levodopa administration, gait assessment, PT coordination

Tremor score, mobility

Motor control optimized

P008

Acoustic Neuroma

Cranial nerve monitoring, balance support

Facial nerve checks, audiology coordination, fall prevention

CN VII function, hearing tests

Nerve function preserved, safe ambulation

P009

Chiari Malformation

Coordination, pain control

Posture management, analgesia administration, PT support

Pain score, coordination tests

Pain reduced, coordination improved

P010

Intracerebral Hemorrhage

Neuro and hemodynamic monitoring

ICP management, BP control, neurological exams

ICP, BP, GCS

Hemorrhage controlled, vitals stable

P011

Epilepsy (Child)

Family education, seizure safety

Parent training, AED adherence, seizure monitoring

Seizure logs, safety compliance

Safe home care, seizure controlled

P012

Cervical Spine Injury

Spinal precautions, respiratory support

Brace compliance, respiratory therapy, pressure ulcer prevention

Motor function, SpO₂, skin integrity

Spine stable, lung function maintained

ERAS Pathways in Neurosurgery/Spine Surgery

  • Patient engagement and education.
  • Nutritional optimization and reduced fasting.
  • Multimodal analgesia with opioid-sparing [29].
  • Early extubation and mobilization.
  • Continuous monitoring and quality improvement.

In table (12), ERAS pathways in neurosurgery/spine surgery (Hypothetical Data) was illustrated.

 

 

Table 12. ERAS Pathways in Neurosurgery/Spine Surgery (Hypothetical Data)

Patient ID

Neurological Condition / Surgery

ERAS Pre-Op Measures

Intraoperative Measures

Post-Op Measures

Key Outcomes / Notes

P001

Brain Tumor (Glioma) / Craniotomy

Pre-op counseling, carbohydrate drink, medication review

TIVA, normothermia, multimodal analgesia

Early mobilization, early oral intake

Pain controlled, ambulating Day 1

P002

Spinal Cord Tumor / Laminectomy

Pre-op education, optimization of comorbidities

Minimally invasive approach, fluid management

Early PT, opioid-sparing analgesia

Reduced LOS, improved mobility

P003

Aneurysmal SAH / Clipping

Blood pressure optimization, education

Balanced anesthesia, neuro-monitoring

Early neurological assessment, early nutrition

Stable vitals, early discharge planning

P004

Epilepsy Surgery / Temporal Lobectomy

Seizure precautions, AED optimization

Awake craniotomy, minimal sedation

Rapid neurological checks, early ambulation

Seizure-free, alert, stable

P005

Parkinson’s Disease / DBS

Medication timing review, education

MAC anesthesia, minimal muscle relaxants

Early mobilization, device care

Tremor controlled, safe ambulation

P006

Acoustic Neuroma / Microsurgery

Pre-op counseling, hearing preservation info

Intra-op nerve monitoring, minimal muscle relaxants

Early facial exercises, ambulation

Facial nerve preserved, minimal pain

P007

Traumatic Brain Injury / Craniotomy

Head injury stabilization, family counseling

TIVA, ICP monitoring

Early neuro checks, sedation taper

ICP controlled, alert by Day 2

P008

Stroke / DE compressive Craniotomy

Pre-op BP optimization, swallow assessment

Controlled anesthesia, hemodynamic monitoring

Early positioning, rehab initiation

Early rehab, stable vitals

P009

Chiari Malformation / Posterior Fossa Decompression

Education, hydration

Normothermia, opioid-sparing anesthesia

Early ambulation, coordination exercises

Pain managed, improved balance

P010

Intracerebral Hemorrhage / Hematoma Evacuation

BP control, comorbidity optimization

Rapid-sequence induction, ICP monitoring

Early neuro assessment, mobilization

Stable ICP, early discharge planning

P011

Cervical Spine Injury / Decompression & Fixation

Brace education, respiratory prep

Spinal precautions, TIVA

Early PT, respiratory exercises

Safe transfers, lung function maintained

P012

Brain Tumor (Meningioma) / Craniotomy

Pre-op counseling, nutrition optimization

TIVA, multimodal analgesia

Early mobilization, wound care

Pain controlled, discharged Day 5

Discussion

The management of patients with neurological diseases undergoing surgical interventions requires a highly coordinated approach involving both medical and nursing care. A systematic review of the literature highlights several key domains that influence patient outcomes, including comprehensive preoperative assessment, perioperative risk stratification, disease-specific interventions, and post-operative monitoring and rehabilitation [30].

Preoperative Assessment and Risk Stratification are foundational to optimizing surgical outcomes in neurological patients. Patients often present with complex comorbidities such as hypertension, diabetes, or cardiovascular disease that can exacerbate perioperative risk. Comprehensive assessment involves neurological evaluation, laboratory and imaging studies, and assessment of systemic conditions, along with consideration of cognitive function, mobility, and nutritional status. Risk stratification tools facilitate individualized care plans, allowing clinicians to anticipate complications and implement targeted interventions. Nursing roles are critical at this stage, providing patient education, anxiety reduction, and preparation for adherence to perioperative protocols [31].

Medication Management represents another critical pre- and post-operative consideration. In neurological patients, the continuation, adjustment, or temporary cessation of disease-specific medications such as antiepileptic’s, anticoagulants, or dopaminergic agents is essential. For example, abrupt discontinuation of antiepileptic drugs can precipitate seizures, whereas uncontrolled anticoagulation increases the risk of intraoperative bleeding [32]. Nursing vigilance in monitoring medication administration, adjusting doses according to renal or hepatic function, and educating patients and families about adherence is vital for preventing adverse outcomes [33].

Anesthetic and Intraoperative Strategies are tailored to the neurological condition and surgical procedure. Total intravenous anesthesia (TIVA) is frequently preferred for procedures requiring neurophysiological monitoring, whereas awake craniotomy demands careful sedation while preserving patient responsiveness for intraoperative mapping. Intraoperative monitoring—including ICP, cerebral perfusion pressure, EEG, and somatosensory evoked potentials—enables real-time adjustment of anesthetic depth and physiological parameters, minimizing the risk of neurological compromise. Nurses assist anesthesiologists by ensuring continuous monitoring, documenting events, and anticipating equipment or medication needs [34].

Post-operative Nursing Care and Monitoring are pivotal in detecting early complications. Neurological deterioration can be subtle [35], manifesting as changes in GCS, pupillary response, or motor function. Nurses conduct frequent neuro checks, monitor systemic parameters such as BP, SpO₂, and temperature, and implement early interventions for elevated ICP, infection, or hemodynamic instability. Disease-specific considerations, including seizure prophylaxis, cerebral edema management, or motor rehabilitation, require both vigilance and interdisciplinary coordination. Moreover, patient and family education regarding signs of deterioration, medication adherence, and lifestyle modifications supports safe recovery after discharge [36].

Pain, Sedation, and Nutrition Management also influence post-operative recovery. Pain control must balance analgesic efficacy with preservation of neurological assessment, often utilizing multimodal analgesia and opioid-sparing strategies. Sedation must be carefully titrated, particularly in patients at risk of elevated ICP or post-operative delirium. Dysphagia is common in stroke and cranial surgery patients, necessitating careful swallowing assessments, dietary modifications, and aspiration prevention. Nurses play a central role in monitoring intake, implementing precautions, and coordinating with dietitians and speech therapists [37].

Rehabilitation and Discharge Planning are integral to functional recovery. Early initiation of physical, occupational, and speech therapy is associated with improved mobility, independence in activities of daily living, and quality of life. Discharge planning involves comprehensive patient and caregiver education, provision of home-based support resources, and coordination of outpatient follow-up, including rehabilitation, neurological evaluation, and medication management. This collaborative approach ensures continuity of care and reduces the risk of readmission or complications.

Finally, the integration of ERAS principles in neurosurgical and spine surgery has emerged as an effective strategy to enhance recovery, minimize complications, and shorten hospital stay. Preoperative optimization, minimally invasive techniques, multimodal analgesia, early mobilization, and standardized post-operative care pathways exemplify evidence-based approaches that improve patient outcomes.

In conclusion, effective management of neurological surgical patients is multifactorial, requiring meticulous preoperative assessment, individualized perioperative interventions, vigilant post-operative monitoring, and structured rehabilitation. Nurses are central to the implementation of these practices, bridging the gap between medical decision-making and patient-centered care. A systematic, evidence-based, and interdisciplinary approach not only enhances clinical outcomes but also promotes patient safety, functional recovery, and satisfaction. Future research should focus on evaluating the efficacy of standardized protocols, exploring novel monitoring strategies, and optimizing education programs for both patients and caregivers.

Conclusion

Effective care for patients with neurological diseases undergoing surgery is complex and multifaceted, requiring meticulous coordination between medical and nursing teams. The systematic review highlights that both preoperative and postoperative interventions significantly influence patient outcomes, functional recovery, and complication rates. Preoperative assessment and risk stratification are essential, allowing clinicians to identify comorbidities, optimize patient condition, and design individualized care plans. Nurses play a crucial role in this phase, providing patient and family education, reducing anxiety, and ensuring adherence to preoperative protocols, which collectively contribute to safer surgical experiences.

Medication management emerges as a critical component of care. Neurological patients often rely on disease-specific medications such as antiepileptic’s, anticoagulants, or dopaminergic agents, requiring careful adjustment to balance efficacy with safety. Mismanagement can lead to severe complications, including seizures, hemorrhage, or deterioration in neurological function. Nursing involvement in monitoring medication administration, recognizing adverse effects, and educating patients ensures continuity and safety in pharmacological care.

Intraoperative management, including anesthetic choices and monitoring strategies, directly impacts neurological outcomes. Techniques such as TIVA, awake craniotomy, and neurophysiological monitoring provide real-time feedback, minimizing risks of intraoperative neurological compromise. Nurses facilitate these strategies by ensuring accurate documentation, anticipating equipment needs, and supporting anesthesia and surgical teams.

Postoperative care is equally critical, encompassing vigilant neurological and systemic monitoring, early identification of complications, and management of pain, sedation, nutrition, and dysphagia. Disease-specific care plans, tailored to conditions such as stroke, brain tumors, or spinal cord injuries, guide interventions and rehabilitation. Early mobilization, physical and occupational therapy, and structured discharge planning promote functional recovery and reduce hospital readmissions. Nurses are central to this process, bridging clinical management with patient-centered care through continuous monitoring, education, and coordination of interdisciplinary interventions.

Finally, the implementation of ERAS (Enhanced Recovery After Surgery) pathways in neurosurgical and spine surgery demonstrates a systematic approach to improving outcomes, emphasizing preoperative optimization, minimally invasive techniques, multimodal analgesia, and early rehabilitation. The evidence suggests that integrating these protocols enhances recovery, minimizes complications, and improves patient satisfaction.

In conclusion, comprehensive medical and nursing care in the pre- and post-operative periods is vital for neurological surgical patients. The combination of individualized assessment, vigilant monitoring, targeted interventions, patient and family education, and structured rehabilitation ensures optimized clinical outcomes. Future research should focus on standardizing care protocols, evaluating the effectiveness of educational and monitoring interventions, and integrating innovative approaches to further improve patient safety, functional recovery, and quality of life in neurological surgery.

Disclosure Statement

No potential conflict of interest reported by the authors.

 Funding

This research did not receive any specific grant from funding agencies in the public, commercial, or not-for-profit sectors.

 Authors' Contributions

All authors contributed to data analysis, drafting, and revising of the paper and agreed to be responsible for all the aspects of this work.